# Noble Industries, Inc.

This MFR.ID profile was supplied, reviewed, and approved by Noble Industries, Inc.. Originally approved on 12/19/2025; last updated 12/19/2025. Capability data is manufacturer-approved for public sourcing and RFQ use.

## Profile Links

- Canonical profile: https://mfr.io/nobleindustries
- JSON data: https://mfr.io/nobleindustries.json

## Company Overview

Noble Industries, Inc. is a family‑run custom sheet‑metal fabricator in Noblesville, Indiana, operating a 110,000‑sq‑ft facility under an ISO 9001:2015 quality system. Since 1969, the company provides design‑for‑manufacture support, laser cutting, CNC punching and panel bending, tube and pipe bending, MIG/TIG/robotic welding, powder coating, and turnkey assembly/packout. Buyers in medical devices, automotive, commercial/HVAC, power distribution & switchgear, POP retail displays, consumer products, agriculture, and general industrial markets rely on Noble for short‑ and long‑run production, inspection traceability, and dependable U.S. logistics.

## Quick Reference

- Processes: Sheet-Metal Fabrication, Tube Bending & Fabrication, Welding & Joining, Coating Processes, Assembly & Integration Services, Engineering & Design Services
- Lead Time: 4-6 weeks
- Production Scale: Prototype (1-10 parts), Short Run (11-500 parts), Medium Run (501-10000 parts), Mass Production (10001+ parts)
- Location: Noblesville, IN 46060
- Employees: 51-200
- Revenue: $10M-$50M
- Founded: 1969
- Contact: brendap@nobleindustries.com - +1 317-773-1926
- Verified: Manufacturer Approved

## Capabilities

### Precision Sheet Metal Fabrication

End-to-end CNC sheet-metal fabrication for aluminum, stainless steel, and carbon steel. Workflow includes laser/turret blanking, precision press-brake and automated panel bending, hardware insertion, fixtured welding, and in-house powder coating. Supports prototype through high-volume production with ISO 9001 quality and documented inspections.

- Process: Sheet-Metal Fabrication
- Highlights: 5 ft × 10 ft (60 in × 120 in) sheet capacity on fiber/CNC lasers, Tight bend accuracy with CNC press brakes and automated panel bending, Integrated hardware insertion, spot/MIG/TIG/robotic welding, and powder coat, CAD/CAM nesting from SolidWorks/DXF/STEP for high material yield, ISO 9001 quality with first-article and final inspection options
- Subprocesses: Cutting, Punching, Press Brake Forming, Spot Welding, MIG (GMAW) Welding, Robotic Welding, Deburring, Powder Coating, Parts Cleaning, Shearing, Waterjet Cutting
- Specifications:
  - Quality & Documentation: ISO 9001 quality management, In-process and final inspection, First Article (upon request) - Traceable dimensional reports available; acceptance criteria per drawing and customer specifications.
  - Coating Performance (Salt Spray): 1000 hours - ASTM B117 scribed-panel performance when combined with validated pretreatment and cure schedule.
  - Typical Lead Times: 1-8 weeks - Lead time depends on material availability, finishing, inspection level, and assembly; expedited slots are reviewed on request.
  - Finish Options: Matte, satin, and gloss solids, Wrinkle, hammertone, and vein textures, Custom color matching to brand standards - Electrostatic application with automatic guns and manual touch-up for complex geometries and Faraday areas.
  - Maximum Sheet Size: 120L x 60W in - Supports standard 5 ft × 10 ft sheets for large panels, enclosures, and chassis.
  - Automated Panel Bending Capabilities: Universal-tooling panel bender (no custom dies), Multi-edge panels, boxes, and drawers formed in one program, High repeatability and short changeover for enclosure families - Automated panel bending accelerates complex multi-flange parts with consistent accuracy.
  - Common Materials (For This Capability): Carbon steel (CR/HRPO, galvanized), Stainless steel (304/316), Aluminum (5052/6061), Copper/Brass (select gauges) - Material selection balanced for strength, finish, corrosion resistance, and cost.
  - Welding Methods (Sheet Assemblies): MIG (GMAW) for structural speed and strength, TIG (GTAW) for thin-gauge and cosmetic seams, Resistance spot welding for overlapped sheet joints, Robotic welding for repeatable, high-volume joints - Process selection based on material, thickness, cosmetics, and throughput requirements.
  - Material Thickness (Laser/Punch): 0.02-0.5 in - Thin gauge through 1/4 in sheet; thicker plates evaluated per geometry and edge-quality requirements.
  - Formed Bend Angle Tolerance: 0.5 deg - Consistent bend angles using CNC backgauges and offline bend simulation.
  - Formed Flange Length Tolerance: 0.015 in - Achieved via CNC press brakes with controlled tooling and verified bend deductions.
  - Hardware Insertion: Self-clinching PEM nuts, studs, and standoffs, Press-in fasteners per manufacturer specs, Stud welding for threaded attachment where specified - Flush, high-strength threads and standoffs installed to maintain assembly stack-up accuracy.
  - Powder Coat Work Envelope: 148L x 39W x 72H in - Conveyorized line sized for large frames and cabinets; maintains cure and film-build consistency.
  - Production Scale: Prototype (1-10 parts), Short Run (11-500 parts), Medium Run (501-10000 parts), Mass Production (10001+ parts) - Lights-out cutting, automated bending, and standardized fixturing support scalability from prototypes to mass production.
  - Blanking Positional Accuracy: 0.005-0.01 in - Typical laser/turret positional tolerance on flat features; final tolerances depend on material and geometry.
  - Pretreatment Sequence: Alkaline clean, Fresh-water rinse, Zirconium conversion coat, Rinse, Non-chrome seal - Improves coating adhesion and corrosion resistance; optional descale for laser oxide/rust removal when required.
  - Accepted / Preferred File Formats: SolidWorks (SLDPRT/SLDASM), STEP / IGES / Parasolid, DXF / DWG (flat patterns) - Imported for nesting, unfolding, and bend simulation to minimize translation errors and scrap.

### Tube & Pipe Fabrication

CNC tube and pipe fabrication including mandrel/rotary-draw and roll bending, precision cut-to-length, notching/slotting, piercing, and welded assemblies. Supports steel, stainless, and aluminum tubes with tight bend accuracy, consistent cut lengths, and in-house finishing.

- Process: Tube Bending & Fabrication
- Highlights: CNC mandrel bending for tight-radius, wrinkle-free bends, Multi-plane, multi-radius programs for complex 3-D geometries, High-speed automatic cut-off with inline deburring, Fixtured tube welding (MIG/TIG/robotic) and optional laser beam welding, In-house powder coating with 5-stage pretreatment
- Subprocesses: Cutting, Sawing, Laser Cutting, CNC Mandrel Bending, Multi-Plane Tube Bending, Tube End Forming, Drilling, MIG (GMAW) Welding, TIG (GTAW) Welding, Robotic Welding, Laser Beam Welding (LBW), Deburring, Powder Coating
- Specifications:
  - Tube Laser & Saw Cutting — Max Tube OD: 5 in - Tube laser & saw cutting capacity. Max wall thickness: 0.25 in.
  - Production Scale: Prototype (1-10 parts), Short Run (11-500 parts), Medium Run (501-10000 parts), Mass Production (10001+ parts) - Automation (auto cut-off, CNC bending, robotic welding) supports consistent quality from prototypes to mass production.
  - Accepted / Preferred File Formats: SolidWorks (SLDPRT/SLDASM), STEP / IGES / Parasolid, DXF / DWG (for laser/punched features) - 3-D centerline geometry and/or bend data (LRA/XYZ) accepted for programming; prints with GD&T preferred.
  - Quality & Testing: ISO 9001 quality management, In-process bend/angle verification, Fit gauges / fixtures for welded frames, Leak testing (air/water) on sealed assemblies when specified - Traceable inspection records available; acceptance per drawing/specification.
  - End Forming Options: Flare, Bead, Reduction/Expansion, Swage/Neck, Chamfer/Deburr - Improves joint fit-up, hose retention, and flow; formed per print or standard tube end specs.
  - Bend Angle Accuracy: 0.25 deg - CNC spring-back compensation for consistent angles across long runs.
  - Tube Bending: 0.5-2 in - Standard production window. Larger OD (up to ~3.0 in) available for select roll-bending profiles; review geometry with engineering.
  - Wall Thickness Range: 0.02-0.135 in - Approx. 24 ga to 10 ga walls; heavier walls reviewed per bend radius and tooling availability.
  - Maximum Feed Length (Bending): 240 in - Up to 20 ft tube length can be fed/programmed for multi-bend parts, subject to bend sequence and clearance.
  - Pretreatment Sequence (Coating): Alkaline clean, Fresh-water rinse, Zirconium conversion coat, Rinse, Non-chrome seal - Enhances adhesion and corrosion resistance; optional descale for laser oxide removal where applicable.
  - Powder Coat Work Envelope: 148L x 39W x 72H in - Large welded tube frames and long components fit the conveyorized line; consistent film build and cure.
  - Cut Length Tolerance: 0.01 in - High-speed automatic cut-off with inline deburr delivers consistent, ready-to-form blanks.
  - Typical Lead Times: 1-8 weeks - Lead time varies with alloy procurement, bend complexity, welding/finishing, and testing requirements; expedites reviewed on request.
  - Coating Performance (Salt Spray): 1000 hours - ASTM B117 scribed-panel performance when paired with validated pretreatment and cure schedule.
  - Multi Radius / Multi Tooling Capability: Multiple bend radii in a single setup, Multi-plane sequences in one program, Programmed spring-back compensation per alloy - Optimizes cycle time on complex parts and reduces handling.
  - Bend Position Repeatability: 0.1 in - Axial position control along the tube with calibrated stops and encoders.
  - Common Materials (For This Capability): Carbon steel tube (CREW/DOM, structural pipe), Stainless steel tube (304/316/316L), Aluminum tube (6061/6063) - Material choice depends on strength, corrosion resistance, weight, and finish requirements.
  - Welding Methods (Tube Assemblies): MIG (GMAW) for structural joints, TIG (GTAW) for thin-wall and cosmetic seams, Robotic welding for repeatability and throughput, Laser Beam Welding (where specified) - Process selection based on alloy, wall, access, cosmetic requirements, and production volume.
  - Notching & Slotting: Fishmouth coping (T and cross joints), Straight/curved slots, Pierced holes prior to or between bends - Coped and slotted ends for precise weld fit-up and attachment features.
  - Centerline Bend Radius (CLR) Capability: 1.5+ ×OD - Tight CLR with mandrel/wiper support; final CLR depends on alloy, temper, wall, and ovality limits.

### Industrial Welding (MIG/TIG/Robotic/Spot)

Production welding of sheet, plate, and tube using MIG (GMAW), TIG (GTAW), resistance spot, and robotic welding. Fixtured cells deliver repeatable geometry and cosmetic quality across steels, stainless, and aluminum, with process selection tuned to section thickness, joint design, and throughput requirements.

- Process: Welding & Joining
- Highlights: Robotic welding cells for high repeatability and volume throughput, Precision TIG for thin-gauge and cosmetic welds; MIG for structural efficiency, Resistance spot welding for overlapped sheet assemblies, Weld fixtures/gauges for consistent geometry and minimized distortion, Integrated finishing: grind/brush, stainless passivation, and in-house coating readiness
- Subprocesses: MIG (GMAW) Welding, TIG (GTAW) Welding, Spot Welding, Robotic Welding, Laser Beam Welding (LBW), Certified Weld Inspection, Passivation
- Specifications:
  - Optional Testing (When Specified): Dye penetrant for surface-breaking flaws (TIG/stainless), Leak testing of sealed tubular assemblies, Destructive macro-etch for penetration verification on samples - Applied per customer standard or print callout to validate joint integrity and sealing.
  - Primary Welding Processes: MIG (GMAW) – structural efficiency and high deposition, TIG (GTAW) – precision/cosmetic welds and thin sections, Resistance Spot – overlapped sheet joints with minimal distortion, Robotic MIG/TIG – repeatability and high-volume throughput, Laser Beam Welding – thin-wall, low-distortion joints where specified - Process selection based on base metal, thickness, joint type, cosmetic requirement, and takt time.
  - Manual Weld Positional Tolerance (Fixture Controlled): 0.03-0.06 in - Fixture design targets ±0.030–0.060 in on critical joint locations for manual operations; final tolerance depends on part size and heat input.
  - Accepted / Preferred File Formats (Weldments): SolidWorks (SLDASM/SLDPRT) with weld symbols, STEP / IGES for assembly models, PDF drawings with AWS weld symbols and critical to quality dims - 3D models support fixture design and robot programming; clear weld callouts reduce ambiguity and rework.
  - Weld Inspection & Quality: Visual and dimensional inspection with gauges/fixtures, Fillet size/profile verification, First Article (upon request); documented in-process/final checks - Inspection level scaled to risk/class; measurement records provided per drawing and PO requirements.
  - Typical Weld Angle/Bevel Prep: Single-V or double-V preps on thicker plate, Edge breaks/land per WPS to control root opening, Back purging for stainless full-penetration TIG - Joint prep defined in WPS to achieve penetration while minimizing distortion and post-weld rework.
  - Distortion Control Methods: Sequenced tacking and opposing-weld progression, Copper/aluminum heat sinks and chill blocks, Interpass temperature control and stitch welding - Applied per geometry to maintain flatness/squareness and reduce post-weld straightening.
  - Typical Lead Times: 1-8 weeks - Lead time depends on material procurement, fixture complexity, testing level, and downstream finishing; expedites reviewed on request.
  - Production Scale: Prototype (1-10 parts), Short Run (11-500 parts), Medium Run (501-10000 parts), Mass Production (10001+ parts) - Robotic cells and standardized fixtures enable consistent weld quality from pilot to mass production.
  - Materials (Welded In This Capability): Carbon steel (mild and HSLA), Stainless steel (304/304L/316/316L), Aluminum (e.g., 5052/6061) - Filler selection matched to base alloy and service; mixed-material joints reviewed for compatibility.
  - Powder Coat Work Envelope (For Welded Assemblies): 148L x 39W x 72H in - Accommodates most welded frames/enclosures; larger items reviewed for alternative finishing paths.
  - Weldable Thickness Range (Typical): 0.02-0.48 in - From thin-gauge sheet (~0.020 in) using TIG/spot to heavier sections (~1/2 in) using multi-pass MIG; heavier upon review of joint design and access.
  - Post Weld Finishing & Prep For Coating: Weld bead grinding/blending for cosmetic surfaces, Stainless passivation after TIG (as required), Powder-coat readiness with pretreatment-compatible surface condition - Surface finishing tailored to end-use (cosmetic vs. functional) to ensure consistent appearance and coating adhesion.
  - Robotic Cell Repeatability (Path): 0.04 in - Typical robot path repeatability ~±0.040 in with fixtured work; weld bead placement validated with gauges and first-article runoffs.

### Powder Coating & Pretreatment

High-capacity, conveyorized powder coating with a 5-stage pretreatment system for durable, uniform finishes. Automated guns with manual touch-up ensure complete coverage on complex parts. Process controls (wash chemistry, cure profiles, thickness checks) deliver repeatable adhesion and corrosion performance for production sheet, tube, and welded assemblies.

- Process: Coating Processes
- Highlights: 5-stage pretreatment (alkaline clean → rinse → zirconium conversion → rinse → non-chrome seal), Automated electrostatic application with manual touch-up for Faraday areas, Gas convection cure with profiled time–temperature control, Large work envelope for frames/enclosures and long tubular parts, Demonstrated 1,000-hour ASTM B117 scribed-panel corrosion performance
- Subprocesses: Powder Coating, Phosphate Conversion Coating, Parts Cleaning
- Specifications:
  - Throughput (Reference): 15000 parts/day - Representative daily capacity under production conditions; actual output depends on size, racking density, and color changes.
  - Masking & Plugging: High-temp silicone caps and plugs, Heat-resistant tapes and custom die-cut masks, Thread, bore, and datum protection per print - Prevents coating on functional interfaces; preserves tolerances and electrical ground points.
  - Powder Chemistries Supported: Polyester (TGIC / TGIC-free), Epoxy, Hybrid (epoxy/polyester), Urethane / Acrylic (select applications) - Chemistry selection based on UV exposure, chemical resistance, and end-use environment.
  - Pretreatment Sequence: Alkaline clean (soil/oil removal), Fresh-water rinse, Zirconium conversion coating, Non-chrome seal (dry-in-place) - Promotes coating adhesion and corrosion resistance; optional 2-stage acid descale for laser oxide/rust removal when specified.
  - Conveyor Length / Line Type: 1000 ft - High-throughput, continuous conveyorized system sized for production volumes and consistent dwell through each stage.
  - Work Envelope (Max Part Size): 150L x 38W x 72H in - Accommodates large welded frames, enclosures, and long tubes within a continuous conveyor system.
  - Application Method: Automatic electrostatic guns on reciprocators, Manual touch-up guns for recesses/Faraday zones, Powder reclaim with cyclone filtration - Combines consistent automated coverage with targeted manual detailing to eliminate thin spots.
  - Accepted / Preferred File Formats: PDF drawings with masking callouts, STEP / IGES for rack/fixture planning (when needed) - Clear identification of no-coat areas and handling points accelerates racking and masking setup.
  - Production Scale: Prototype (1-10 parts), Short Run (11-500 parts), Medium Run (501-10000 parts), Mass Production (10001+ parts) - Flexible racking and quick color-change practices support a wide range of order sizes.
  - Time At Metal Temperature (Typical): 10-20 min - Measured using data-logger profiles; actual time depends on mass, color, and chemistry.
  - Typical Lead Times: 1-2 weeks - Standalone coating jobs typically 1–2 weeks depending on color availability, masking complexity, and batch size; integrated fab+coat aligns with total build schedule.
  - Environmental / Compliance: Solvent-free coating process (low VOC), Closed-loop reclaim to reduce waste, Documentation available upon request - Environmentally considerate finishing with efficient material utilization.
  - Adhesion / Hardness Validation: Cross-hatch adhesion (ASTM D3359), Pencil hardness (ASTM D3363), Impact resistance (ASTM D2794) - Routine QC sampling verifies coating integrity and mechanical durability.
  - Coating Thickness (Typical): 2-4 mil - Applied per color/system; thickness verified with DFT gauge on representative surfaces and edges.
  - Common Substrates (Finished In This Capability): Carbon steel (CR/HRPO, galvanized), Stainless steel (304/316), Aluminum (cast/machined/extruded) - Surface condition and alloy influence pretreatment choice and cure schedule.
  - Corrosion Performance (Salt Spray, Scribed): 1000 hours - ASTM B117 scribed-panel performance achievable with specified pretreatment and cure controls.
  - Color & Texture Options: Matte, satin, and gloss solids, Wrinkle, hammertone, and vein textures, Custom color matching to brand standards - Wide formulation support for visual targets and functional textures.
  - Cure Set Temperature: 350-400 °F - Gas-fired convection curing; oven profiles validated against powder supplier requirements.

### Assembly & Packaging Services

Mechanical assembly, kitting, labeling, and protective pack-out for shipment-ready product. Services include fastener installation, torque-controlled fastening, sub-assembly build, BOM-based kitting, labeling/identification, and custom packaging that preserves finish quality and dimensional integrity through transit.

- Process: Assembly & Integration Services
- Highlights: Torque-controlled fastening with fixture/gauge support, BOM-driven kitting and labeling for JIT lines, Protective, finish-safe packaging for coated weldments and sheet/tube parts, Barcoding and carton/pallet identification aligned to customer systems, In-process checks and final inspection with traceable records
- Subprocesses: Assembling, Packaging / Kitting, Label & Overlay Application, Torque Verification (ISO 6789)
- Specifications:
  - ESD / Clean Handling (When Specified): ESD bags and anti-static foam for sensitive assemblies, Glove/clean-bench handling to protect finishes, Dust-controlled staging for optics/graphics surfaces - Applied only to parts requiring electrostatic or particulate controls per print or PO.
  - Max Pack Weight Per Carton: 50 lb - Heavier shipments are split across cartons or palletized for safe handling.
  - Kitting Configurations: Line-side BOM kits in labeled polybags or cartons, Sub-assembly kits with hardware and instructions, Service/field-repair kits with spare parts and documentation - Each kit includes identification, counts, and revision/date codes; scan-based verification available.
  - Fastening Methods: Machine screws/bolts with lock washers or threadlocker, Blind rivets and rivet nuts, Self-clinching (PEM) hardware installation, Stud welding and staking (as applicable) - Method selection based on load, service conditions, and access; verified with sample builds or gauge checks.
  - Accepted / Preferred File Formats: PDF work instructions and packing maps, CSV/XLSX BOMs for kitting and label data, PDF/AI/EPS for label artwork (if branded) - Digital data accelerates label generation, kit validation, and serialization/logging.
  - Production Scale: Prototype (1-10 parts), Short Run (11-500 parts), Medium Run (501-10000 parts), Mass Production (10001+ parts) - Flexible cells and standardized pack-out work instructions scale from pilot builds to sustained production.
  - Palletization: Standard 40 in × 48 in pallets with stretch wrap/strap, Layer pads and corner boards for stack stability, Pallet labels with PO, part, rev, and count - Pallet build standardizes footprint and improves warehouse handling and inventory accuracy.
  - Typical Lead Times: 1-3 weeks - Lead time varies with kit complexity, labeling, and documentation; integrated fab+coat+assembly schedules are coordinated to ship complete.
  - Carton Size Range: Min: 6L x 6W x 4H in, Max: 36L x 24W x 24H in - Standard carton library shown; oversized items are foam-crated or palletized to maintain part integrity.
  - Labeling & Identification: Barcode (Code 128 / Code 39), 2D DataMatrix/QR for compact IDs, Human-readable labels with part/rev, lot, and date, Pallet placards for inbound/ASN alignment - Label placement follows customer prints or agreed work instructions to support receiving and line consumption.
  - Packaging Materials: Corrugated cartons (ECT rated) with dividers, Foam, bubble, and kraft wrap for finish protection, Edge guards and corner protectors for frames, VCI options for corrosion-sensitive metals - Material choice protects coating and edges while minimizing freight damage; sustainable options available.
  - Common Assembled Materials (Context): Powder-coated steel and stainless weldments, Aluminum panels and frames, Hardware kits (fasteners, PEMs, inserts) - Material context guides protection methods, torque targets, and packaging media.
  - Torque Control Range (Hand/Driver Tools): 5-250 in-lbf - Calibrated tools with recorded settings; higher torque (ft-lbf) applications supported with click/digital wrenches.
  - Max Sub Assembly Size (Pre Pack): 150L x 38W x 72H in - Sized to match in-house powder-coat work envelope; larger assemblies evaluated for alternate pack strategy.
  - In Process & Final Checks: Visual and dimensional verification, Torque audit sampling per work instruction, Piece counts and kit reconciliation, Photo documentation when requested - Records are traceable to job/lot and included in the shipment data pack as required.

### Product Design & Engineering (DFM/DFX)

Parametric 3D modeling, DFM/DFA reviews, and production-ready drawings to release parts and assemblies to manufacturing. Outputs include controlled CAD, unfolded flat patterns, bend tables, and GD&T per ASME Y14.5, aligning with sheet metal, tube/pipe, welding, and powder-coat downstream processes.

- Process: Engineering & Design Services
- Highlights: Design-for-manufacturability (sheet metal, tube/pipe, weldments, coatings), Production drawings with GD&T and clear critical-to-quality features, Nesting/unfold-ready flat patterns and bend data for CAM, Change control and revision management aligned to release milestones, Optional analysis support (static, thermal, modal, fatigue) when specified
- Subprocesses: 3-D Solid Modeling & Drawing Creation, DFM / DFA Consulting, Production Tooling & Fixture Design, DFM Analysis
- Specifications:
  - Bill Of Materials (BOM) Structure: Top-level assembly with sub-assemblies, Hardware callouts by spec and finish, References to standard parts and PEM inserts - BOM clarity reduces kit errors and supports automated labeling/packaging.
  - Production Design Cycle (Typical): 2-6 weeks - Includes DFM/DFA reviews, drawing set completion, and release package; schedule aligns with downstream fabrication start.
  - Design Default Tolerances (Guideline): 0.01-0.03 in - General non-critical dimensions ±0.010–±0.030 in; critical features controlled by GD&T (position/profile/flatness) per drawing.
  - Sheet Metal DFM Guidelines: Min flange length ≥ 2× material thickness, Recommended inside bend radius ≥ 1× thickness, Relief slots at tight corner bends and adjacent features, Hole-to-bend distance ≥ 1.5× thickness, Hardware standoff allowances maintained per PEM spec - Guidelines reduce cracking, distortion, and rework; exceptions reviewed with forming simulation and samples.
  - CAM / Nesting Readiness: Unfolded flat patterns with bend deductions, Clean, manifold profiles for laser/punch, Layered DXF conventions for tooling recognition - Prepared data shortens programming time and improves material utilization.
  - Accepted / Preferred CAD & Data Formats: SolidWorks (SLDPRT/SLDASM), STEP (.stp/.step), IGES (.igs/.iges), Parasolid (.x_t/.x_b), DXF/DWG (flat patterns and laser/punch profiles), PDF (release drawings) - Native SolidWorks preferred for associativity; neutral formats accepted for interoperability and CAM.
  - Tube/Frame DFM Guidelines: Target CLR ≥ 1.5× OD (tighter with mandrel and material review), Sequence bends to minimize regrips and collisions, Provide datum schemes compatible with fixtures, Specify copes/notches to improve weld fit-up - Upfront bend sequencing and joint definition improve repeatability and reduce fixture complexity.
  - Engineering Change Turnaround (Minor): 1-2 weeks - Minor revisions (note updates, small feature edits) coordinated with production to minimize disruption.
  - Drawing & GD&T Standards: ASME Y14.5 Geometric Dimensioning & Tolerancing, ASME Y14 series for drawing practices, ISO 1101 (when specified by customer) - Clear datums, unambiguous tolerances, and explicit inspection callouts reduce risk in fabrication and QA.
  - Release Package Contents: Native CAD + neutral (STEP) models, 2D PDFs with GD&T, notes, and BOM, DXF flat patterns for laser/punch, Bend tables / K-factor notes for forming, Weld symbols, sequence, and fixture references, Finish specifications (pretreatment, film build, color) - Complete, synchronized artifacts accelerate CAM programming and reduce clarification cycles.
  - Materials & Finishes Context (For Design): Carbon steel, stainless steel, aluminum (sheet/tube), Powder-coat systems (2–4 mils typical), pretreatment flow, Hardware: PEM nuts/studs/standoffs, rivets - Design choices reflect downstream processes and coating stack-ups to hit fit and performance targets.
  - Change Control & Revisioning: Revision letters with change description, ECN/ECO linkage and effective-date tracking, Superseded file archival and notification - Controlled releases ensure shop floor and QA work from the same, current definition of record.
  - Production Scale (Design Support): Prototype (1-10 parts), Short Run (11-500 parts), Medium Run (501-10000 parts), Mass Production (10001+ parts) - Design artifacts scale with volume—fixtures, weld maps, and packaging specs added as needed for repeatability.
  - Prototype Design Cycle (Typical): 1-2 weeks - Initial modeling and drawings for straightforward parts/assemblies; complex programs may extend with review cycles.

## Certifications

- ISO 9001:2015 (Type: Certification; Authority: International Organization for Standardization (ISO); Status: Active; Scope: Company-wide quality management system applied to metal fabrication and related processes (ISO 9001:2015).; URL: https://www.iso.org/iso-9001-quality-management.html)

## Industries Served

- Medical Devices & Healthcare Equipment: Manufactures precision sheet‑metal medical components and assemblies—enclosures, brackets, and welded frames—with controlled fabrication, finishing, and inspection traceability for device housings and diagnostic equipment.
- General Manufacturing: Builds industrial enclosures, control‑cabinet panels, brackets, and structural frames via laser cutting, CNC forming, and welding for machinery and factory equipment.
- Packaging, Printing & Labeling: Supplies fabricated metal fixtures, display frames, and custom racks with powder coating and assembly to support retail merchandising and branded store installations.
- Automotive & Transportation: Fabricates brackets, formed panels, housings, and welded subassemblies for vehicle systems and aftermarket products using laser cutting, CNC forming, tube bending, and welding.
- Construction Products & Building Materials: Produces metal enclosures, HVAC panels, architectural frames, and supports for commercial building systems using laser cutting, press‑brake forming, powder coating, and assembly.
- Energy & Power Generation (inc. Renewables): Delivers fabricated enclosures, frames, and protective panels supporting electrical equipment and balance‑of‑plant needs across the power sector.
- Point-of-Purchase (POP) & Retail Displays: Produces metal display fixtures, frames, shelves, and custom racks with powder‑coated finishes and knock‑down assembly for branded retail and POP programs.
- Consumer Goods & Appliances: Fabricates consumer‑product and appliance housings, panels, and brackets with formed sheet‑metal, welded subassemblies, finishing, and packout.
- Agriculture & AgriTech: Supplies brackets, guards, and fabricated enclosures for agricultural and off‑road equipment using laser cutting, forming, and welding.
- Power Distribution & Switchgear: Builds sheet‑metal electrical enclosures, PDU cabinets, and mounting frames for low‑ and medium‑voltage power distribution and switchgear systems.

## Facilities

### Noble Industries (Noblesville Facility)

110,000‑sq‑ft headquarters in Noblesville, IN integrates laser cutting, CNC punching and panel bending, tube/pipe forming, MIG/TIG/robotic welding, in‑house powder coating, and product assembly under an ISO 9001:2015 QMS. Near Indianapolis for carrier access, the site supports short‑ and long‑run production with nationwide shipping.

- Type: manufacturing_facility
- Headquarters: Yes
- Email: brendap@nobleindustries.com
- Phone: +1 317-773-1926
- Address: 17575 Presley Drive, Noblesville, IN 46060, United States

## Verification Status

- Business Entity: Verified 9/16/2025
- Technical Capabilities: Verified 12/19/2025
- Locations & Facilities: Verified 9/16/2025
- Reviews & Ratings: Not yet verified
- MFR.ID Created: 9/16/2025
- Last Updated: 12/19/2025